Acta Physica Sinica,
Journal Year:
2024,
Volume and Issue:
73(17), P. 178103 - 178103
Published: Jan. 1, 2024
Self-assembling
biomolecular
soft
materials
are
a
novel
type
of
matter
formed
through
the
self-assembly
process
by
using
biomolecules
or
building
blocks.
The
characteristics
bio-sourced
origin
and
assembly
driven
weak
interactions
endow
these
with
advantages
such
as
high
biocompatibility,
reversible
assembly,
dynamic
responsiveness,
controllable
microstructures.
These
properties
offer
immense
potential
for
development
in
fields
biomedicine,
tissue
engineering,
flexible
sensing.
This
paper
concisely
reviews
fundamental
construction
principles
self-assembling
discusses
three
categories,
i.e.
nanomaterials,
gel
materials,
composite
amino
acids
peptides
examples
units.
specific
molecular
mechanisms,
material
strategies,
functional
application
scenarios
elucidated.
We
anticipate
that
research
on
will
evolve
from
exploring
structural
units
measuring
to
customizing
multifunctional
integrating
advanced
applications.
lead
intelligent
further
promoting
their
applications
organic
semiconductors,
robotics.
MedMat.,
Journal Year:
2024,
Volume and Issue:
1(1), P. 40 - 49
Published: May 13, 2024
The
energy
harvesting
technology
based
on
piezoelectricity
promises
to
achieve
a
self-powered
mode
for
portable
medical
electronic
devices.
Piezoelectric
materials,
as
crucial
components
in
electromechanical
applications,
have
extensively
been
utilized
Especially,
degradable
piezoelectric
biomaterials
received
much
attention
the
field
due
their
excellent
biocompatibility
and
biosafety.
This
mini-review
mainly
summarizes
types
structural
characteristics
of
from
small-molecule
crystals
polymers.
Afterward,
applications
are
briefly
introduced,
including
harvester
sensor,
actuator
transducer,
tissue
engineering
scaffold.
Finally,
material
perspective,
some
challenges
currently
faced
by
proposed.
ChemSystemsChem,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 24, 2025
Abstract
Research
across
various
disciplines
shows
the
benefits
of
learning
and
memory
for
gaining
functionality
improving
performance.
It
is
increasingly
clear
that
can
be
found
in
both
physical
virtual
systems,
from
intelligent
life
forms
to
machines,
simple
organisms,
even
designed
chemical
systems.
We
are
interested
understanding
what
extent
embodiments
these
processes
synthesized
engineered
bottom
up
by
using
molecular
components.
In
this
perspective,
we
raise
attempt
answer
conceptual
questions
about
supramolecular
systems
as
smallest
units
capable
learning.
define
a
process
where
complex
system
interacting
components
modifies
itself
response
an
applied
stress
or
stimulus,
resulting
structural
changes
information
gain.
highlight
potential
chemistry
networks
design
meet
definition
encoding,
decoding,
storing
within
system′s
composition.
Understanding
basis
could
inform
development
materials
autonomously
acquire
new
properties
their
environment.
This
also
provide
insights
next‐generation
computing
physical,
rather
than
virtual,
Biomimetics,
Journal Year:
2024,
Volume and Issue:
9(5), P. 273 - 273
Published: April 30, 2024
Recent
advancements
in
biomimetics
have
spurred
significant
innovations
prosthetic
limb
development
by
leveraging
the
intricate
designs
and
mechanisms
found
nature.
Biomimetics,
also
known
as
“nature-inspired
engineering”,
involves
studying
emulating
biological
systems
to
address
complex
human
challenges.
This
comprehensive
review
provides
insights
into
latest
trends
biomimetic
prosthetics,
focusing
on
knowledge
from
natural
biomechanics,
sensory
feedback
mechanisms,
control
closely
mimic
appendages.
Highlighted
breakthroughs
include
integration
of
cutting-edge
materials
manufacturing
techniques
such
3D
printing,
facilitating
seamless
anatomical
limbs.
Additionally,
incorporation
neural
interfaces
enhances
movement,
while
technologies
like
scanning
enable
personalized
customization,
optimizing
comfort
functionality
for
individual
users.
Ongoing
research
efforts
hold
promise
further
advancements,
offering
enhanced
mobility
individuals
with
loss
or
impairment.
illuminates
dynamic
landscape
technology,
emphasizing
its
transformative
potential
rehabilitation
assistive
technologies.
It
envisions
a
future
where
solutions
seamlessly
integrate
body,
augmenting
both
quality
life.
Advanced Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: Jan. 21, 2025
Abstract
Structural
diversity
of
biomolecules
leads
to
various
supramolecular
organizations
and
asymmetric
architectures
self‐assemblies
with
significant
piezoelectric
response.
However,
the
piezoelectricity
biomolecular
has
not
been
fully
explored
relationship
between
structures
remains
poorly
understood,
which
hinders
development
biomaterials.
Herein,
for
first
time,
vitamin‐based
power
generation
is
systematically
explored.
X‐ray
diffraction
studies
revealed
that
vitamin
molecules
can
self‐assemble
into
different
structures,
exhibited
tunable
coefficients
ranging
from
3.8
42.8
pC
N
−1
by
density
functional
theory
(DFT)
calculations.
Notably,
B
7
D‐biotin
(D‐BIO)
superior
due
low
crystal
symmetry
high
polarization
arrangements.
The
D‐BIO
assemblies‐based
nanogenerator
(PENG)
produced
output
voltages
≈0.8
V
under
a
mechanical
force
47
N,
showing
durability
after
5400
pressing‐releasing
cycles
stability
at
least
three
months.
PENG‐based
wearable
sensor
successfully
detected
bending
motions
human
limbs.
Furthermore,
insole
converted
biomechanical
energy
stable
electrical
upon
foot
movement,
illuminating
12
light‐emitting
diodes
(LEDs).
This
work
fills
knowledge
gaps
in
self‐assemblies,
providing
paradigms
realizing
high‐performance
biomaterials
through
engineering.
Advanced Functional Materials,
Journal Year:
2025,
Volume and Issue:
unknown
Published: March 3, 2025
Abstract
Hierarchical
structures
with
enhanced
performances
are
of
growing
importance
in
many
fields,
but
their
preparation
suffers
from
tedious
and
multistep
procedures.
There
remain
challenges
to
transfer
magnify
the
molecular
functions
hierarchical
pursue
more
unique
applications.
Herein,
a
facile
one‐step
approach
for
fabrication
assembling
amphiphilic
copolymers,
poly(ethylene
glycol)‐
block
‐poly(6‐(4‐(4‐pyridyazo)phenoxy)hexyl
methacrylate)
(PEG‐
b
‐PAzoPy)
controlled
morphologies
functions,
is
reported.
Various
including
three‐dimensional
raspberry‐like
assemblies,
worm
networks
(WNs),
large
compound
vesicles
obtained
through
heating‐cooling‐aging
process
THF/ethanol.
The
fluorescence
detection
p
‐nitrophenol
at
ultralow
concentrations
(10
−12
m
)
realized
by
formation
nonfluorescent
nitrophenol‐WNs
complexes,
taking
advantage
high
surface
area
cavities
WNs.
Furthermore,
highly
efficient
nanofiltration
composite
membrane
constructed
WNs
on
commercial
polypropylene
membrane.
More
interestingly,
using
simple
2H,2H,3H,3H‐perfluoroundecanoic
acid
as
H‐bond
donor
PEG‐
‐PAzoPy
acceptor,
they
can
form
complexes
further
assemble
into
nanowires
ordered
liquid
crystalline
stripes.
This
study
not
only
offers
strategy
design
also
facilitates
application
advanced
materials
various
fields.